Personal Website

Education

2001-2006:  Ph. D. Candidate, College of Materials Science and Engineering, Hunan University, Changsha, Hunan 410082, P. R. China

1997-2001: Undergraduate Student, College of Chemistry and Chemical Engineering, Hunan University, Changsha, Hunan 410082, P. R. China

Work experiences

2022.12-2023.12: Visiting scholar, National University of Singapore, Singapore

2011.12-present: Professor, School of Materials Science and Engineering, Anhui University of Technology, Ma’anshan, Anhui 243002, P. R. China

2006.7-2011.11: Associate professor, School of Materials Science and Engineering, Anhui University of Technology, Ma’anshan, Anhui 243002, P. R. China

Research Interests

Nanoscale materials; Solid waste utilization

Publications

[1]  F. H. Tao, C. H. Yu, J. F. Huang, F. Y. Li, Z. Y. Cai, C. G. Fan, L. Z. Pei*. Synthesis and properties of BiDy composite electrode materials in electrochemical sensors. Materials Chemistry Frontiers, 2022, 6(19): 2880-2893.

[2]  J. F. Huang, F. H. Tao, Z. Z. Sun, F. Y. Li, Z. Y. Cai, Y. Zhang, C. G. Fan, L. Z. Pei*. A facile synthesis route to BiPr composite nanosheets and sensitive electrochemical detection of L-cysteine. Microchemical Journal, 2022, 182(11): 107915.

[3]  X. Y. Wang, J. F. Huang, C. H. Yu, F. Y. Li, Z. Y. Cai, Y. Zhang, C. G. Fan, L. Z. Pei*. A facile route to synthesize DyF₃/Bi₂O₃ nanowires and sensitive L-cysteine sensing properties. Journal of The Electrochemical Society, 2022, 169(7): 076504.

[4]  J. F. Huang, F. H. Tao, F. Y. Li, Z. Y. Cai, Y. Zhang, C. G. Fan, L. Z. Pei*. Controllable synthesis of BiPr composite oxide nanowires electrocatalyst for sensitive L-cysteine sensing properties. Nanotechnology, 2022, 33(34): 345704.

[5]  A. J. Deng, Z. Y. Xue, C. H. Yu, J. F. Huang, H. B. Pan*, L. Z. Pei*. Rare metal doping of the hexahydroxy strontium stannate with enhanced photocatalytic performance for organic pollutants. Journal of Materials Research and Technology, 2022, 19(7-8): 1073-1089.

[6]  H. J. Chen, F. Y. Li, F. H. Tao, J. F. Huang, Y. Zhang, L. Z. Pei*. Bismuth oxide/carbon nanodots/indium oxide heterojunctions with enhanced visible light photocatalytic performance. Journal of Materials Science: Materials in Electronics, 2022, 33(9): 7154-7171.

[7]  Z. Wang, H. J. Chen, L. Z. Pei*, X. Y. Guo, C. G. Fan. Preparation and characterisation of environmental-friendly ceramsites from iron ore tailings and sludge [J]. International Journal of Sustainable Engineering, 2021, 14(4): 884-892.

[8]  Y. Zhang*, F. F. Lin, T. Wei, L. Z. Pei*. Facile synthesis of Cu bismuthate nanosheets and senstive electrochemical detection of tartaric acid. Journal of Alloys and Compounds, 2017, 723(11): 1062-1069.

[9]  L. Z. Pei*, T. Wei, N. Lin, C. G. Fan, Z. Yang. Aluminium bismuthate nanorods and electrochemical performance for the detection of tartaric acid. Journal of Alloys and Compounds, 2016, 679(9): 39-46.

[10] L. Z. Pei*, T. Wei, N. Lin, H. Zhang. Synthesis of bismuth nickelate nanorods and electrochemical detection of tartaric acid using nanorods modified electrode. Journal of Alloys and Compounds, 2016, 663(4): 677-685.

[11] L. Z. Pei*, T. Wei, N. Lin, Z. Y. Cai, C. G. Fan, Z. Yang*. Synthesis of zinc bismuthate nanorods and electrochemical performance for sensitive determination of L-cysteine. Journal of The Electrochemical Society, 2016, 163(2): H1-H8.

[12] L. Z. Pei*, N. Lin, T. Wei, H. D. Liu, H. Y. Yu. Formation of copper vanadate nanobelts and the electrochemical behaviors for the determination of ascorbic acid. Journal of Materials Chemistry A, 2015, 3(6): 2690-2700.

[13] L. Z. Pei*, S. Wang, H. D. Liu, N. Lin, H. Y. Yu*. Vanadium doped barium germanate microrods and photocatalytic properties under solar light. Solid State Communications, 2015, 202(1): 35-38.

[14] L. Z. Pei*, S. Wang, Y. K. Xie, Y. H. Yu, Y. H. Guo. Hydrothermal synthesis of Ba germanate microrods and photocatalytic degradation performance for methyl blue. Journal of Alloys and Compounds, 2014, 587(2): 625-631.

[15] Y. K. Xie, L. Z. Pei*, Y. Q. Pei, Z. Y. Cai*. Determination of phenyl acetic acid by cyclic voltammetry with electrochemical detection. Measurement, 2014, 47: 341-344.

[16] L. Z. Pei*, S. Wang, Y. X. Jiang, Y. Li, Y. K. Xie, Y. H. Guo. Single crystalline Sr germanate nanowires and their photocatalytic performance for the degradation of methyl blue. CrystEngComm, 2013, 15(38): 7815-7823.

[17] L. Z. Pei*, Y. K. Xie, Y. Q. Pei, Y. X. Jiang, H. Y. Yu, Z. Y. Cai. Hydrothermal synthesis of Mn vanadate nanosheets and visible-light photocatalytic performance for the degradation of methyl blue. Materials Research Bulletin, 2013, 48(3): 2557-2565.

[18] L. Z. Pei*, Y. Q. Pei, Y. K. Xie, C. G. Fan, H. Y. Yu. Synthesis and characterization of manganese vanadate nanorods as glassy carbon electrode modified materials for the determination of L-cysteine. CrystEngComm, 2013, 15(9): 1729-1738.

[19] Y. P. Dong*, L. Z. Pei, X. F. Chu, W. B. Zhang, Q. F. Zhang. Electrogenerated chemiluminescence of bismuth sulfide nanorods modified electrode in alkaline aqueous solution. Analyst, 2013, 138(8): 2386-2391.

[20] L. Z. Pei*, Z. Y. Cai, Y. Q. Pei, Y. K. Xie, C. G. Fan, D. G. Fu. Electrochemical behaviors of ascorbic acid at CuGeO₃/polyaniline nanowire modified glassy carbon electrode. Journal of The Electrochemical Society, 2012, 159(10): G107-G111.

[21] L. Z. Pei*, Y. Q. Pei, Y. K. Xie, C. G. Fan, D. K. Li, Q. F. Zhang. Formation process of calcium vanadate nanorods and their electrochemical sensing properties. Journal of Materials Research, 2012, 27(18): 2391-2400.

[22] L. Z. Pei*, Y. Q. Pei, Y. K. Xie, C. Z. Yuan, D. K. Li, Q. F. Zhang. Growth of calcium vanadate nanorods. CrystEngComm, 2012, 14(13): 4262-4265.

[23] L. Z. Pei*, Y. K. Xie, Z. Y. Cai, Y. Yang, Y. Q. Pei, C. G. Fan, D. G. Fu. Electrochemical behaviors of ascorbic acid at copper germanate nanowire modified electrode. Journal of The Electrochemical Society, 2012, 159(3): K55-K60.

[24] L. Z. Pei*, Y. Yang, Y. Q. Pei, S. L. Ran. Synthesis and microstructural control of flower-like cadmium germanate. Materials Characterization, 2011, 62(11): 1029-1035.

[25] L. Z. Pei*, Y. Yang, C. G. Fan, C. Z. Yuan, T. K. Duan, Q. F. Zhang. Synthesis and characterizations of calcium germanate nanowires. CrystEngComm, 2011, 13(14): 4658-4665.

[26] L. Z. Pei*, Y. Yang, C. Z. Yuan, T. K. Duan, Q. F. Zhang. A simple route to synthesize manganese germanate nanorods. Materials Characterization, 2011, 62(6): 555-562.

[27] L. Z. Pei*, J. F. Wang, L. J. Yang, S. B. Wang, Y. P. Dong, C. G. Fan, Q. F. Zhang. Synthesis of CuS and Cu_1.1Fe_1.1S₂ crystals and their electrochemical properties. Materials Characterization, 2011, 62(3): 354-359.

[28] L. Z. Pei*, L. J. Yang, Y. Yang, C. Z. Yuan, C. G. Fan, Q. F. Zhang. Large-scale synthesis and growth conditions dependence on the formation of CuGeO₃ nanowires. Materials Chemistry and Physics, 2011, 130(1-2): 104-112.

[29] Y. P. Dong, L. Z. Pei*, X. F. Chu, W. B. Zhang, Q. F. Zhang. Electrochemical behavior of cysteine at a CuGeO₃ nanowires modified glassy carbon electrode. Electrochimica Acta, 2010, 55(18): 5135-5141.

[30] L. Z. Pei*, L. J. Yang, Y. Yang, C. G. Fan, W. Y. Yin, J. Chen, Q. F. Zhang. A green and facile route to calcium silicate nanowires. Materials Characterization, 2010, 61(11): 1281-1285.

[31] L. Z. Pei*, H. S. Zhao, W. Tan, H. Y. Yu, Y. W. Chen, Q. F. Zhang. Single crystalline ZnO nanorods grown by a simple hydrothermal process. Materials Characterization, 2009, 60(9): 1063-1067.

[32] L. Z. Pei*, H. S. Zhao, W. Tan, H. Y. Yu, Y. W. Chen, Q. F. Zhang, C. G. Fan. Low temperature growth and characterizations of single crystalline CuGeO₃ nanowires. CrystEngComm, 2009, 11(8): 1696-1701.

[33] L. Z. Pei*, H. S. Zhao, W. Tan, Q. F. Zhang. Facile hydrothermal preparation and characterizations of single crystalline Ge dioxide nanowires. Journal of Applied Physics, 2009, 105(5): 054313.

[34] L. Z. Pei*. Hydrothermal deposition and characterization of silicon oxide nanospheres. Materials Characterization, 2008, 59(5): 656-659.

[35] L. Z. Pei. Y. H. Tang*, X. Q. Zhao, Y. W. Chen, C. Guo. Formation mechanism of silicon carbide nanotubes with special morphology, Journal of Applied Physics, 2006, 100(4): 046105.

[36] L. Z. Pei, Y. H. Tang*, Y. W. Chen, C. Guo, X. X. Li, Y. Yuan, Y. Zhang. Preparation of silicon carbide nanotubes by hydrothermal method. Journal of Applied Physics, 2006, 99(11): 114306.

[37] Y. H. Tang*, L. Z. Pei, Y. W. Chen, C. Guo. Self-assembled silicon nanotubes under supercritically hydrothermal conditions. Physical Review Letters, 2005, 95: 116102.

Books:

[1]  L. Z. Pei. Introduction to functional ceramics materials [M]. Beijing: Chemical Industry Press (China), ISBN 978-7-122-39248-0, 2021.

[2]  L. Z. Pei. High technology ceramics materials [M]. Hefei Anhui: Hefei University of Technology Press (China), ISBN 978-7-5650-2161-9, 2015.

[3]  Y. H. Tang, L. Z. Pei, X. Q. Zhao. Introduction to nanoscale materials [M]. Changsha Hunan: Hunan University Press (China), ISBN 978-7-81113-911-2, 2011.

[4]  C. G. Jin, L. Z. Pei, H. Y. Yu. One-dimensional inorganic nanoscale materials [M]. Beijing: Metallurgical Industry Press (China), ISBN 978-7-50244-354-2, 2007.

Zhao Tianyang

Research Engineer

NUS Environmental Research Institute,

1 CREATE Way, CREATE Tower,

Singapore, 138602

Office: #15-02

Phone: (65) 88535085

Email: tianyang@nus.edu.sg

Education

M.Eng., Biomedical Engineering, National University of Singapore, Singapore, 2022

B.S., Beijing Institute of Technology, Beijing, China, 2020.

Research Interests

3D Printing; Drug delivery; Wound dressing

Publication:

Yao, Z., Zhao, T., Su, W., You, S., & Wang, C. H. (2022). Towards understanding respiratory particle transport and deposition in the human respiratory system: Effects of physiological conditions and particle properties. Journal of Hazardous Materials, 439, 129669.

Education
Ph.D., Materials Science and Engineering, KTH Royal Institute of Technology, Sweden, 2022
M.Sc., Engineering Materials Science, KTH Royal Institute of Technology, Sweden, 2019
B.Eng., Functional Materials, Northeastern University, China, 2016

Experience
Research Fellow, National University of Singapore, Singapore, Dec. 2022 – present
Postdoctoral Researcher, KTH Royal Institute of Technology, Sweden, Oct. 2022 – Nov. 2022
Research Intern, University of Copenhagen, Denmark, Jun. 2018 – Aug. 2018
Astronomy Guide, Earth & Sky Ltd., New Zealand, Aug. 2016 – Jan. 2017

Research interests
Thermal conversion techniques: pyrolysis, gasification, hydrothermal carbonization, catalysis, etc.
Methodologies: kinetics and thermodynamics, production characterization, process simulation, LCA, machine learning, etc.
Applications/Production: biofuel, CNTs, magnetic activated carbon, etc.

Selected publications
• Y. Wen, S. Wang*, Z. Shi, Y. Jin, J.B. Thomas, E.S. Azzi, D. Franzén, F. Gröndahl, A. Martine, C. Tang, W. Mu, P.G. Jönsson, W. Yang, Pyrolysis of Engineered Beach-cast Seaweed: Performances and Life Cycle Assessment, Water Research (2022): 118875.
• Y. Wen, S. Wang*, Z. Shi, I.N. Zaini, Ł. Niedźwiecki, C.A. Briceno, H.P. Kruczek, P.G. Jönsson, W. Yang, H2-rich syngas production from agricultural waste digestate by coupling hydrothermal carbonization with pyrolysis, Energy Conversion and Management (2022): 116101.
• Y. Wen, I.N. Zaini, S. Wang*, W. Mu, P.G. Jönsson, W. Yang, Synergistic effect of the co-pyrolysis of cardboard and polyethylene: a kinetic and thermodynamic study, Energy (2021): 120693.
• Y. Wen#, *, Z. Shi#, S. Wang, W. Mu, P.G. Jönsson, W. Yang, Pyrolysis of raw and anaerobically digested organic fractions of municipal solid waste: Kinetics, thermodynamics, and product characterization, Chemical Engineering Journal (2021): 129064.
• Y. Wen, Z. Zheng, S. Wang, T. Han*, P.G. Jönsson, W. Yang, Magnetic bio-activated carbons production using different process parameters for phosphorus removal from artificially prepared phosphorus-rich and domestic wastewater, Chemosphere (2021): 129561.
• Y. Wen, S. Wang*, W. Mu, W. Yang, P.G. Jönsson, Pyrolysis performance of peat moss: A simultaneous in-situ thermal analysis and bench-scale experimental study, Fuel (2020): 118173.

Education and Work Experience

Senior Lecturer, Chemical Engineering Department, School of Engineering and Computing, Manipal International University, Malaysia (2021-2022)

Postdoctoral Researcher, HICoE Centre for Biofuel and Biochemical Research, Universiti Teknologi PETRONAS, Malaysia (2019-2021)

Ph.D. (Chemical Engineering), Universiti Malaysia Pahang (2017-2019)

B.Eng (Chemical Engineering), Universiti Malaysia Pahang (2013-2017)

Research Interests

• Biomass valorisation
• Thermochemical conversion
• Heterogeneous catalysis
• Renewable energy
• Wastewater treatment

Selected Publications

• Xu, D., Wang, B., Li, X., Cheng, Y.W., Fu, W., Dai, Y. Wang, C.H. (2023). Solar-driven biomass chemical looping gasification using Fe₃O₄ for syngas and high-purity hydrogen production. Chem Eng J.
• Imanuella, N., Witoon, T., Cheng, Y.W., Chong, C.C., Ng, K.H.^*, … (2022). Interfacial-engineered CoTiO₃-based composite for photocatalytic applications: A review. Chem. Lett. 20.
• Chong, C.C., Cheng, Y.W., Ishak, S., Lam, M.K.^*, … (2022). Anaerobic digestate as a low-cost nutrient source for sustainable microalgae cultivation: A way forward through waste valorization approach. Total Environ. 803.
• Chen, K., Ng, K.H.^*, Cheng, C.K., Cheng, Y.W., … (2022). Biomass-derived carbon-based and silica-based materials for catalytic and adsorptive applications – An update since 2010. Chemosphere. 287(2).
• Cheng, Y.W., Lim, J.S.M., Chong, C.C., Lam, M.K.^*, … (2021). Unravelling CO₂ capture performance of microalgae cultivation and other technologies via comparative carbon balance analysis. Environ. Chem. Eng. 9(6)
• Chong, C.C.^{*, #}, Cheng, Y.W.^#, Ng, K.H., Vo, D.N., Lam, M.K., & Lim, J.W. (2021). Bio-hydrogen production from steam reforming of liquid biomass wastes and biomass-derived oxygenates: A review. Fuel. 311.
• Chong, C.C.^*, Cheng, Y.W., Lam, M.K., Setiabudi, H.D., & Vo, D.N. (2021). State-of-the-art of the synthesis and applications of sulfonated carbon-based catalysts for biodiesel production: A review. Energy Technol. 9(9).
• Chong, C.C.^#, Cheng, Y.W.^#, Bukhari, S.N., Setiabudi, H.D.^*, & Jalil, A.A. (2021). Methane dry reforming over Ni/fibrous SBA-15 catalysts: Effects of support morphology (rod-liked F-SBA-15 and dendritic DFSBA-15). Today. 375.
• Cheng, Y.W.^{*, #}, Chong, C.C.^#, Lam, M.K., … (2021). Holistic process evaluation of non-conventional palm oil mill effluent (POME) treatment technologies: A conceptual and comparative review. Hazard. Mater. 409.
• Nguyen, T.T., Lam, M.K.^*, Cheng, Y.W., Uemura, Y., … (2021). Reaction kinetic and thermodynamics studies for in-situ transesterification of wet microalgae paste to biodiesel. Eng. Res. Des. 169.
• Chai, Y.H., Mohamed, M., Cheng, Y.W., Chin, B.L.F., Yiin, C.L., Yusup, S.^*, & Lam, M. K. (2021). A review on potential of biohydrogen generation through waste decomposition technologies. Biomass Convers. Biorefin.
• Cheng, Y.W.^{*, #}, Chong, C.C.^#, Lam, M.K., Leong, W.H., … (2021). Identification of microbial inhibitions and mitigation strategies towards cleaner bioconversions of palm oil mill effluent (POME): A review. Clean. Prod. 280.
• Foong, S.Y.^#, Liew, R.K.^#, Yang, Y.^#, Cheng, Y.W.^#, …, & Lam, S.S.^*. (2020). Valorization of biomass waste to engineered activated biochar by microwave pyrolysis: progress, challenges, and future directions. Eng. J. 417.
• Cheng, Y.W.^*, Chong, C.C., …, & Cheng, C.K.^* (2020). Syngas from palm oil mill effluent (POME) steam reforming over lanthanum cobaltite: Effects of net-basicity. Energ. 148.
• Cheng, Y.W., Chong, C.C.^*, Cheng, C.K.^*, … (2020). Ethylene production from ethanol dehydration over mesoporous SBA-15 catalyst derived from palm oil clinker waste. Clean. Prod. 249.
• Cheng, Y.W.^*, Lee, Z.S., …, Cheng, C.K.^*, … (2019). Hydrogen-rich syngas production via steam reforming of palm oil mill effluent (POME)–A thermodynamics Int. J. Hydrogen Energ. 44.
• Cheng, Y.W., Khan, M.R., …, & Cheng, C.K.^* (2019). Harnessing renewable hydrogen-rich syngas from valorization of palm oil mill effluent (POME) using steam reforming technique. Energ. 138.
• Cheng, Y.W., Ng, K.H., Lam, S.S., …, & Cheng, C.K.^* (2019). Syngas from catalytic steam reforming of palm oil mill effluent: An optimization study. J. Hydrogen Energ. 44.
• Cheng, Y.W., Chang, Y.S., Ng, K.H., …, & Cheng, C.K.* (2017). Photocatalytic restoration of liquid effluent from oil palm agroindustry in Malaysia using tungsten oxides catalyst. Clean. Prod. 162.

Xu Xiaoyun
Personal Particulars
Research Associate
4 Engineering Drive 4, E5-B12, Singapore 117585
Phone: (65)86473470
Email: xy.xu@nus.edu.sg

Employment History

• 01 Mar 2021–Present, Research Associate (Chemical and Biomolecular Engineering), National University of Singapore
• 23 Oct 2020‒28 Feb 2021, Research Associate (NERI), National University of Singapore
• May 2014‒April 2017, Project Manager (Design Center), Shanghai Electric Wind Energy Co., Ltd.
• Aug 2012–April 2014, Project Engineer (Design Center), Siemens Wind Power Turbines (Shanghai) Co., Ltd.
• Jul 2010–Jul 2012, System Engineer (Technology Department), Shanghai Electric Wind Power Equipment Co., Ltd.

Education

• M.Eng., (Water Conservancy and Hydropower Engineering), Hohai University, China, 2010
• B.Eng., (Thermal Power Engineering), Hohai University, China, 2007

Research Interests

• Physics-and-AI based modelling and optimization for multi-energy systems
• Hydrodynamics and thermal engineering applied to the renewable energy sector
• Aerodynamics engineering science applied to wind energy

Research Highlight

Aug 2021–present A*STAR SINGAPORE FOOD STORY R&D PROGRAMME INDUSTRY ALIGNMENT FUND-PREPOSITIONING (IAF-PP) ON THEME 2 – FUTURE FOODS: ALTERNATIVE PROTEINS (AME DOMAIN)

• Design, fabrication, and commissioning of a 2-module photobioreactor system for the laboratory-scale micro-algae cultivation.
• Designed the heat exchanger and cooling system inside the micro-algae photobioreactor for controlling the cultivation temperature of the outdoor demonstration-scale photobioreactors.
• Completed the outdoor test by using a LDPE-bag based experimental setup.

Figure 1: Water temperature and ambient temperature as functions of the global solar irradiance in Singapore’s outdoor environment.

Nov 2021–present  A CIRCULAR ECONOMY APPROACH IN PHYTOREMEDIATION

• Research on the biochar production from gasification of water hyacinth for a circular economy

Liu Qinwen

Visiting PhD Student

Education

Ph.D., Southeast University, China; Monash University, Australia. (2019 – Present)

Current Position

Lecturer, School of Energy and Environment, Southeast University, China.

Research Interests

Combustion and conversion of solid fuels

Publications

1. Q. Liu, W. Zhong, A. Yu, Oxy-fuel combustion behaviors in a fluidized bed: A combined experimental and numerical study. Powder Technology 349 (2019) 40-51.
2. Q. Liu, Y. Shi, W. Zhong, A. Yu, Co-firing of coal and biomass in oxy-fuel fluidized bed for CO₂ capture: A review of recent advances. Chinese Journal of Chemical Engineering 27 (2019) 2261-2272.
3. Q. Liu, W. Zhong, J. Gu, A. Yu, Three-dimensional simulation of the co-firing of coal and biomass in an oxy-fuel fluidized bed. Powder Technology 373 (2020) 522-534.
4. Q. Liu, W. Zhong, H. Yu, R. Tang, A. Yu, Experimental studies on the emission of gaseous pollutants in an oxy-fuel-fluidized bed with the cofiring of coal and biomass waste fuels. Energy Fuels 34 (2020) 7373–7387.
5. Q. Liu, W. Zhong, R. Tang, H. Yu, J. Gu, G. Zhou, et al., Experimental tests on co-firing coal and biomass waste fuels in a fluidised bed under oxy-fuel combustion. Fuel 286 (2021), 119312.
6. Q. Liu, W. Zhong, A. Yu, C.H. Wang, Modelling the co-firing of coal and biomass in a 10 kW_th oxy-fuel fluidized bed. Powder Technology 395 (2022) 43–59.
7. Q. Liu, W. Zhong, A. Yu, C.H. Wang, Co-firing of coal and biomass under pressurized oxy-fuel combustion mode: Experimental test in a 10 kW_th fluidized bed. Chemical Engineering Journal. https://doi.org/10.1016/j.cej.2021.133457
8. R. Tang, Q. Liu, W. Zhong, G. Lian, H. Yu, Experimental study of SO₂ emission and sulfur conversion characteristics of pressurized oxy-fuel co-combustion of coal and biomass. Energy Fuels 34 (2020) 16693-16704.
9. Y. Shi, Q. Liu, Y. Shao, W. Zhong, Energy and exergy analysis of oxy-fuel combustion based on circulating fluidized bed power plant firing coal, lignite and biomass. Fuel 269 (2020) 117424.
10. J. Gu, Q. Liu, W. Zhong, A. Yu, Study on scale-up characteristics of oxy-fuel combustion in circulating fluidized bed boiler by 3D CFD simulation. Advanced Powder Technology 31 (2020) 2136-2151.

CURRENT WEBSITE (http://homepage.hit.edu.cn/lilifeng)

EDUCATION BACKGROUND AND WORK EXPERIENCE

• 2020–2021, Research officer, The Australian National University (ANU), Australia
• 2015–2020, Doctor of Philosophy (Ph.D.), The Australian National University (ANU), Australia
• 2012–2014, Master of Science (M.Sc.), Karlsruhe Institute of Technology (KIT), Germany & Uppsala University (UU), Sweden
• 2008–2012, Bachelor of Engineering (B.Eng.), Zhejiang University (ZJU), China

Research Interests

• Optics, transport phenomena and chemical reaction engineering applied to solar thermal and thermochemical systems;
• In particular, numerical and experimental studies of optics and solar receiver–reactors for high-temperature solar thermochemical processing;
• Radiative transfer, transport phenomena and cell growth kinetics of photobioreactor systems for cultivation of microalgae.

Research Highlights

• Ongoing project (2021.11–present) on Design, Modelling and Optimisation of Photobioreactor (PBR) Systems for Cultivation of Microalgae

Figure 1: Optimisation of photobioreactor (PBR) systems via a combined methodology of numerical modelling and experimental testing.

• Research project (2020.11–2021.11) on Experimental Evaluation of a High-Temperature Solar Calcination–Carbonation Reactor Using Simulated High-Flux Solar RadiationA packed-bed solar thermochemical reactor was experimentally tested for solar energy storage and carbon dioxide (CO2) capture using calcination–carbonation chemical-looping cycling of calcium carbonate (CaCO₃). The reactor was driven by simulated high-flux solar irradiation provided by the ANU high-flux solar simulator (HFSS).

• Doctoral work (2015.04–2020.11) on Design, Modelling and Optimisation of Optical Systems for High-Temperature Concentrating Solar Applications

Optical studies were conducted for a high-flux solar simulator (HFSS) based experimental system and commercial-scale solar central receiver systems (CRSs). Optical studies of a compound parabolic concentrator (CPC) and reflective optics were performed to aid in solving the limitations and problems of the HFSS-based experimental system. Commercial-scale solar CRSs were investigated for a wide range of receiver temperatures in a low and a high power level. A proposed novel solar beam-down system with a rotating tower reflector was proposed and optically investigated.

Publications

ARTICLES IN REFEREED JOURNALS:

1. L. Li, Z.M.H Mohd Shafie, T. Huang, R. Lau, and C.-H. Wang, 2023. Multiphysics simulations of concentric-tube internal loop photobioreactors for microalgae cultivation. Chemical Engineering Journal 457, 141342, https://doi.org/10.1016/j.cej.2023.141342.
2. L. Li, X. Xu, W. Wang, R. Lau, and C.-H. Wang, 2022. Hydrodynamics and mass transfer of concentric-tube internal loop airlift reactors: A review. Bioresource Technology 359, 127451, https://doi.org/10.1016/j.biortech.2022.127451.
3. L. Li, A. Rahbari, M. Taheri, R. Pottas, A. Rahbari, L. Reich, L. Yue, J. Zapata, P. Kreider, A. Bayon, B. Wang, C.-H. Wang, J. Coventry, and W. Lipiński, 2022. Experimental evaluation of an indirectly-irradiated packed-bed solar thermochemical reactor for calcination–carbonation chemical looping. Submitted to Chemical Engineering Journal, under revision.
4. J. Pottas¹, L. Li¹, M. Habib, B. Wang, J. Coventry, C.-H. Wang, and W. Lipiński, 2021. Optical alignment and radiometry flux characterization of a multi-source high-flux solar simulator. Solar Energy 236, 434–444, https://doi.org/10.1016/j.solener.2022.02.026.
5. S. Yang, L. Li, B. Wang, S. Li, J. Wang, P. Lund, and W. Lipiński, 2021. Thermodynamic analysis of a conceptual fixed-bed solar thermochemical cavity receiver–reactor array for water splitting via ceria redox cycling. Frontiers in Energy Research 9, 253, https://doi.org/10.3389/fenrg.2021.565761.
6. B. Wang, L. Li, F. Schäfer, J. Pottas, A. Kumar, V. M. Wheeler, and W. Lipiński, 2021. Thermal reduction of iron–manganese oxide particles in a high-temperature packed-bed solar thermochemical reactor. Chemical Engineering Journal 410(C), 128255, https://doi.org/10.1016/j.cej.2020.128255.
7. W. Lipiński, E. Abbasi-Shavazi, J. Chen, J. Coventry, M. Hangi, S. Iyer, A. Kumar, L. Li, S. Li, J. Pye, J. F. Torres, B. Wang, Y. Wang, and V. Wheeler, 2020. Progress in heat transfer research for high-temperature solar thermal applications. Applied Thermal Engineering 184(C), 116137, https://doi.org/10.1016/j.applthermaleng.2020.116137.
8. L. Li, B. Wang, J. Pye, R. Bader, W. Wang, and W. Lipiński, 2020. Optical analysis of a multi- aperture solar central receiver system for high-temperature concentrating solar applications. Optics Express 28(25), 37654–37668, https://doi.org/10.1364/OE.404867.
9. B. Wang, L. Li, R. Bader, J. Pottas, V. Wheeler, P. Kreider, and W. Lipiński, 2020. Thermal model of a solar thermochemical reactor for metal oxide reduction. Journal of Solar Energy Engineering 142, 051002, https://doi.org/10.1115/1.4046229.
10. L. Li, B. Wang, J. Pye, and W. Lipiński, 2020. Temperature-based optical design, optimization and economics of solar polar-field central receiver systems with an optional compound parabolic concentrator. Solar Energy 206, 1018–1032, https://doi.org/10.1016/j.solener.2020.05.088.
11. L. Li, S. Yang, B. Wang, J. Pye, and W. Lipiński, 2020. Optical analysis of a solar thermochemical system with a rotating tower reflector and a receiver–reactor array. Optics Express 28(13), 19429–19445, https://doi.org/10.1364/OE.389924.
12. L. Li, B. Wang, R. Bader, J. Zapata, and W. Lipiński, 2019. Reflective optics for redirecting convergent radiative beams in concentrating solar applications. Solar Energy 191, 707–718, https://doi.org/10.1016/j.solener.2019.08.077.
13. L. Li, B. Wang, J. Pottas, and W. Lipiński, 2019. Design of a compound parabolic concentrator for a multi-source high-flux solar simulator. Solar Energy 183, 805–811, https://doi.org/10.1016/j.solener.2019.03.017.
14. W. Wang, B. Wang, L. Li, B. Laumert, and S. Torsten, 2016. The effect of the cooling nozzle arrangement to the thermal performance of a solar impinging receiver. Solar Energy 131, 222– 234, https://doi.org/10.1016/j.solener.2016.02.052.
15. L. Li, J. Coventry, R. Bader, J. Pye, and W. Lipiński, 2016. Optics of solar central receiver systems: A review. Optics Express 24(14), A985–A1007, https://doi.org/10.1364/OE.24.00A985.

BOOKS AND BOOK CHAPTERS:

1. L. Li, B. Wang, R. Bader, T. Cooper, and W. Lipiński, 2021, Concentrating collector systems for high-temperature solar thermal and thermochemical applications, in: W. Lipiński (Ed.), Advances in Chemical Engineering, Elsevier, volume 58, pp: 1–53, https://doi.org/10.1016/bs.ache.2021.10.001.
2. X. Wang, F. Zhang, L. Li, H. Zhang, and S. Deng, 2021, Carbon dioxide capture, in: W. Lipiński (Ed.), Advances in Chemical Engineering, Elsevier, volume 58, pp: 297–348, https://doi.org/10.1016/bs.ache.2021.10.005.

ABSTRACTS AND EXTENDED ABSTRACTS IN CONFERENCE PROCEEDINGS (SELECTED):

1. L. Li, Z.M.H. Mohd Shafie, T. Huang, Y.-C. Wang, R. Lau, and C.-H. Wang. Multiphysics simulation of internal loop airlift photobioreactors for microalgae cultivation. In Proceedings of the 2022 AIChE Annual Meeting, Phoenix, 13–18 November 2022.
2. L. Li, X. Xu, W. Wang, R. Lau, and C.-H. Wang. Concentric-tube internal loop airlift reactors for microalgae cultivation: A review. In Proceedings of the 2022 AIChE Annual Meeting, Phoenix, 13–18 November 2022.
3. L. Li, B. Wang, J. Pye, and W. Lipiński. Concentrating collector systems for high-temperature solar thermal applications. In Proceedings of the OSA Advanced Photonics Congress, virtual, 26–30 July 2021. Extended abstract.
4. L. Li, B. Wang, R. Bader, W. Wang, J. Pye and W. Lipiński. Optical analysis of multi-aperture solar central receiver systems for high-temperature concentrating solar applications. In Proceedings of the 2020 SolarPACES International Symposium on Concentrating Solar Power and Chemical Energy, virtual, 29 September–2 October 2020.
5. L. Li, B. Wang, J. Pottas, and W. Lipiński. Application of a compound parabolic concentrator to a multi-source high-flux solar simulator. In Proceedings of the OSA 2018 Light, Energy and the Environment Congress, Sentosa Island, Singapore, 5–8 November 2018. Extended abstract.

Education

M.Sc., Chemical and Biomolecular Engineering, National University of Singapore, Singapore, 2021

B.S., Chemical Engineering, Xiamen University Malaysia, Selangor, 2016-2020.

Research Interests

Waste-to-Energy Conversion

Publication

1. He, X., Wang, Y., Tai, M. H., Lin, A., Owyong, S., Li, X., Leong, K., Yusof, M. L. M., Ghosh, S., & Wang, C.-H.* (2022). Integrated applications of water hyacinth biochar: A circular economy case study. Journal of Cleaner Production, 134621.
2. Wang, Y., Lin, G., Li, X., Tai, M. H., Song, S., Tan, H. T. W., Leong, K., Yip, E. Y. B., Lee, G. Y. C., Dai, Y., & Wang, C.-H.* (2023). Meeting the heavy-metal safety requirements for food crops by using biochar: An investigation using sunflower as a representative plant under different atmospheric CO₂ concentrations. Science of The Total Environment, 867, 161452.

WANG Bo

Research Fellow

Office:

NUS Environmental Research Institute,

1 CREATE Way, #15-02 CREATE Tower,

Singapore, 138602

Phone: (65)91400062

Email: bo.wang@nus.edu.sg

ORCID: https://orcid.org/0000-0001-8087-918X

CURRENT WEBSITE (http://homepage.hit.edu.cn/bowang?lang=zh)

Education Background

Ph.D. (under review), Solar Thermal Technology, The Australian National University, 2015–2021.

M.Sc., Erasmus Mundus Joint Program in Energy Engineering, Eindhoven University of Technology (TUE), Netherlands & Royal Institute of Technology (KTH), Sweden, 2012–2015.

B.Eng., Energy and Environment System Engineering, Zhejiang University, China, 2008–2012.

Research Interests

High-temperature solar thermochemical technology

Energy storage and CO2 capture based on solar-driven chemical looping

Multiphase solar reactor design and modelling

Research Highlight

Design and optimization of a high-temperature packed-bed solar thermochemical reactor for solar energy storage

An indirectly irradiated solar thermochemical packed-bed reactor has been designed to achieve the endothermic reduction step of a two-step metal oxide-based chemical looping, which is a promising pathway for solar energy storage and water splitting. The novel reactive medium consists of binary Fe/Mn oxide particles was tested in the reactor under concentrated solar irradiation generated by a high-flux solar simulator. Leveraging commercial software and in-house developed programs, a numerical model was developed to simulate the chemically reactive and radiatively participative gas–solid flow for performance evaluation and operation optimization of the reactor. The solar-to-chemical efficiency reached 11.4% in the optimal case.

Schematic of the experiment set-up of a high-temperature packed-bed solar thermochemical reactor.

Publication list

1. Bo Wang, Xian Li, Xuancan Zhu, Yuesen Wang, Tian Tian, Yanjun Dai, Chi-Hwa Wang, An epitrochoidal rotary reactor for solar-driven hydrogen production based on the redox cycling of ceria: Thermodynamic analysis and geometry optimization, Energy 270 (5), 2023, 126833.
2. Bo Wang, Alireza Rhabari, Morteza Hangi, Xian Li, Chi-Hwa Wang, Wojciech Lipinski, Topological and hydrodynamic analyses of solar thermochemical reactors for aerodynamic-aided window protection, Engineering Applications of Computational Fluid Mechanics 16(1), 2022, 1195–1210.
3. Bo Wang, Xian Li, Yanjun Dai, Chi-Hwa Wang, Thermodynamic analysis of an epitrochoidal rotary reactor for solar hydrogen production via a water-splitting thermochemical cycle using nonstoichiometric ceria, Energy Conversion and Management 268, 2022, 115968.
4. Wang, L. Li, F. Schaefer, J.J. Pottas, A. Kumar, V.M. Wheeler, W. Lipiński, Thermal reduction of iron–manganese oxide particles in a high-temperature packed-bed solar thermochemical reactor, Chemical Engineering Journal 412 (2021) 128255.
5. Yang, L. Li, B. Wang, S. Li, J. Wang, P. Lund, W. Lipiński, Thermodynamic analysis of a novel solar thermochemical system with a rotating tower reflector and a fixed-bed receiver–reactor array, Frontiers in Energy Research 9 (2021) 253.
6. Wang, L. Li, J.J. Pottas, R. Bader, P.B. Kreider, V.M. Wheeler, W. Lipiński, Journal of Solar Energy Engineering 142 (5) (2020).
7. Li, B. Wang, J. Pye, R. Bader, W. Wang, W. Lipiński, Optical analysis of a multi-aperture solar central receiver system for high-temperature concentrating solar applications, Optics Express 28 (25) (2020) 37654-37668.
8. Lipiński, E. Abbasi-Shavazi, J. Chen, J. Coventry, M. Hangi, S. Iyer, A. Kumar, L. Li, S. Li, J. Pye, J.F. Torres, B. Wang, Ye.Wang, V.M. Wheeler, Progress in heat transfer research for high-temperature solar thermal applications, Applied Thermal Engineering (2020) 116137.
9. Li, B. Wang, J. Pye, W. Lipiński, Temperature-based optical design, optimization and economics of solar polar-field central receiver systems with an optional compound parabolic concentrator, Solar Energy 206 (2020) 1018-1032.
10. Li, S. Yang, B. Wang, J. Pye, W. Lipiński, Optical analysis of a solar thermochemical system with a rotating tower reflector and a receiver–reactor array, Optics Express 28 (13) (2020) 19429-19445.
11. Li, B. Wang, R. Bader, J. Zapata, W. Lipiński, Reflective optics for redirecting convergent radiative beams in concentrating solar applications, Solar Energy 191(2019) 707-718.
12. Li, B. Wang, J. Pottas, W. Lipiński, Design of a compound parabolic concentrator for a multi-source high-flux solar simulator, Solar Energy 183 (2020) 805-811.
13. Wang, B. Wang, L. Li, B. Laumert, T. Strand, The effect of the cooling nozzle arrangement to the thermal performance of a solar impinging receiver, Solar Energy 131, 222-234.

Personal Particulars

Research Assistant

Personal website

Education

M. Eng., Chemical Engineering, University of Chinese Academy of Sciences, China, 2012.

B. Eng., Chemical Engineering and Technology, Qingdao University of Science & Technology, China, 2009.

Work expeiences

2012.7-2014.1, Research Assistant, Institute of Process Engineering, Chinese Academy of Sciences. Group: Advanced Energy Technology

2014.2-2017, Research Assistant, NUS Environmental Research Institute, National University of Singapore. Topic: Energy and Environment Sustainability Solutions for Megacities (E2S2).

Research Interests

Thermal conversion of coal and biomass